针对疑似失眠、呼吸暂停和周期性腿部运动人群的基于可解释小波的自动睡眠评分系统

IF 1.7 4区 医学 Q3 ENGINEERING, BIOMEDICAL Medical Engineering & Physics Pub Date : 2024-07-08 DOI:10.1016/j.medengphy.2024.104208
Manisha Ingle , Manish Sharma , Shresth Verma , Nishant Sharma , Ankit Bhurane , U. Rajendra Acharya
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引用次数: 0

摘要

睡眠是人类生活中不可或缺的重要组成部分,对整体健康和幸福大有裨益,但全球有相当多的人存在睡眠障碍。睡眠障碍的诊断在很大程度上取决于对睡眠阶段的准确分类。传统上,这种分类是由训练有素的睡眠技术人员通过目测多导睡眠图记录手动完成的。然而,为了减轻这一过程的劳动密集型特点,人们开发出了自动方法。这些自动化方法旨在简化和促进睡眠阶段分类。本研究旨在对由失眠、睡眠障碍和睡眠呼吸暂停受试者组成的数据集进行睡眠阶段分类。数据集由国家睡眠研究资源(NSRR)的多种族动脉粥样硬化研究(MESA)队列中的 PSG 记录组成,包括 2056 名受试者。在这些受试者中,130 人失眠,39 人患有 PLM,156 人患有睡眠呼吸暂停,其余 1731 人被归类为睡眠良好者。本研究提出了一种自动计算机化的睡眠阶段分类技术,利用基于小波的 Hjorth 参数开发了一种具有可解释人工智能(XAI)功能的机器学习模型。该研究采用了优化的双正交小波滤波器组(BOWFB),从 30 秒的脑电图(EEG)历时中提取子带(SB)。三个脑电图通道,即采用 Fz_Cz、Cz_Oz 和 C4_M1 三条脑电图通道,以获得最佳结果。然后,从 SB 中提取的 Hjorth 参数被输入到不同的机器学习算法中。为了了解模型,我们在本研究中使用了 SHAP(夏普利相加解释)方法。对于罹患上述疾病的受试者,该模型利用了从所有通道获得的特征,并采用了集合袋装树(EnBT)分类器。失眠者、PLM、apniac、良好睡眠者和完整数据集的最高准确率分别为 86.8%、87.3%、85.0%、84.5% 和 83.8%。利用这些技术和数据集,该研究旨在提高睡眠阶段分类的准确性,并增进对失眠、睡眠障碍和睡眠呼吸暂停等睡眠疾病的了解。
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Automated explainable wavelet-based sleep scoring system for a population suspected with insomnia, apnea and periodic leg movement

Sleep is an integral and vital component of human life, contributing significantly to overall health and well-being, but a considerable number of people worldwide experience sleep disorders. Sleep disorder diagnosis heavily depends on accurately classifying sleep stages. Traditionally, this classification has been performed manually by trained sleep technologists that visually inspect polysomnography records. However, in order to mitigate the labor-intensive nature of this process, automated approaches have been developed. These automated methods aim to streamline and facilitate sleep stage classification. This study aims to classify sleep stages in a dataset comprising subjects with insomnia, PLM, and sleep apnea. The dataset consists of PSG recordings from the multi-ethnic study of atherosclerosis (MESA) cohort of the national sleep research resource (NSRR), including 2056 subjects. Among these subjects, 130 have insomnia, 39 suffer from PLM, 156 have sleep apnea, and the remaining 1731 are classified as good sleepers. This study proposes an automated computerized technique to classify sleep stages, developing a machine-learning model with explainable artificial intelligence (XAI) capabilities using wavelet-based Hjorth parameters. An optimal biorthogonal wavelet filter bank (BOWFB) has been employed to extract subbands (SBs) from 30 seconds of electroencephalogram (EEG) epochs. Three EEG channels, namely: Fz_Cz, Cz_Oz, and C4_M1, are employed to yield an optimum outcome. The Hjorth parameters extracted from SBs were then fed to different machine learning algorithms. To gain an understanding of the model, in this study, we used SHAP (Shapley Additive explanations) method. For subjects suffering from the aforementioned diseases, the model utilized features derived from all channels and employed an ensembled bagged trees (EnBT) classifier. The highest accuracy of 86.8%, 87.3%, 85.0%, 84.5%, and 83.8% is obtained for the insomniac, PLM, apniac, good sleepers and complete datasets, respectively. Using these techniques and datasets, the study aims to enhance sleep stage classification accuracy and improve understanding of sleep disorders such as insomnia, PLM, and sleep apnea.

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来源期刊
Medical Engineering & Physics
Medical Engineering & Physics 工程技术-工程:生物医学
CiteScore
4.30
自引率
4.50%
发文量
172
审稿时长
3.0 months
期刊介绍: Medical Engineering & Physics provides a forum for the publication of the latest developments in biomedical engineering, and reflects the essential multidisciplinary nature of the subject. The journal publishes in-depth critical reviews, scientific papers and technical notes. Our focus encompasses the application of the basic principles of physics and engineering to the development of medical devices and technology, with the ultimate aim of producing improvements in the quality of health care.Topics covered include biomechanics, biomaterials, mechanobiology, rehabilitation engineering, biomedical signal processing and medical device development. Medical Engineering & Physics aims to keep both engineers and clinicians abreast of the latest applications of technology to health care.
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